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The Metabolomics of Nitric Oxide and Reactive Nitrogen Species in Immune Editing Tumor Milieu: Influence of Nitric Oxide-Modulating Therapies Ashok R

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The Metabolomics of Nitric Oxide and Reactive Nitrogen Species in Immune Editing Tumor Milieu: Influence of Nitric Oxide-Modulating Therapies Ashok R b Meta olis g m & ru D T o f x o i l c Journal of Drug Metabolism and a o n l o Amin, J Drug Metab Toxicol 2012, S8 r g u y o J DOI: 10.4172/2157-7609.S8-002 ISSN: 2157-7609 Toxicology ReviewResearch Article Article OpenOpen Access Access The Metabolomics of Nitric Oxide and Reactive Nitrogen Species in Immune Editing Tumor Milieu: Influence of Nitric Oxide-Modulating Therapies Ashok R. Amin* Department of Biochemical Engineering, Virginia Tech, Virginia College of Osteopathic Medicine. Rheumatrix Inc., Blacksburg, Virginia 24061, USA Abstract Nitric oxide (NO), reactive nitrogen and oxygen species, hypoxia, L-arginine metabolites and peroxynitrite are contributing agents during various stages of carcinogenesis. Among these, NO contributes to various functions in the tumor microenvironment such as augmenting immune suppression, maintaining anergy to tumor associated antigens, stimulating angiogenesis, enhancing tumor growth and invasiveness, and modulating autophagy. Most cells in the tumor milieu either release NO and/or have altered physiological functions due to the influence of NO. Cancer cells evolve into a metabolic state to tolerate and reduce reactive nitrogen and oxygen species to elude oxidative damage. These cancer cells in the tumor microenvironment inhibit cellular infiltration of effector immune cells into the cancer milieu. Increased levels of CCAAT-enhancer-binding proteins such as C/EBP α and β are required for inducible Nitric Oxide Synthase (iNOS) gene expression and other transcripts for sustaining an immunosuppressive environment in growing tumors. The immunoediting property of reactive nitrogen and oxygen-modified metabolites change the functions of: intratumoral chemokines, T cell receptors, antigen specific tumor infiltrating lymphocytes (TILs), cytotoxic T lymphocyte, myeloid derived suppressive cells (MDSCs), gene expression, tumor suppressor genes, and Interferon responses which together countersignal tumor immunity. Recent studies show that reactive nitrogen species that promote tumor-mediated immune evasion can be reversed by gene therapy, immunotherapy, and chemotherapy by targeting or co-targeting excessive nitric oxide accumulation. Keywords: Nitric oxide; Free radicals; Cancer; Metabolomics; systems [6]. It is highly reactive and diffuses freely across cell Immunotherapy; Chemotherapy membranes. This property of NO makes it an ideal transient paracrine and autocrine signaling molecule in biological systems. Five chemical Abbreviations: Nitric oxide: NO; Nitric oxide synthase: NOS; processes occur in the biological milieu upon exposure to NO: nitration Inducible Nitric Oxide Synthase: iNOS; Peroxynitrite: (ONOO-); and nitrosation, nitrosylation, oxidation and interactions with other Superoxide: (O2−); Reactive nitrogen species: RNS; Reactive oxygen free radicals, e.g., H2O2 [7]. All the five effects of NO have been reported species: ROS; Tumor infiltrating lymphocytes: TILs; Myeloid derived to be involved in generation of modified metabolites in various cell suppressive cells: MDSCs; L-arginine: L-Arg; L-Citrulline: L-Cit; signaling processes [3,8,9] (Figure1). Cytotoxic T cells: CTL; T regulatory cells: Tregs; Immature myeloid cells: IMCs; L- Arginine: L-Arg; Cytoplasmic arginase: Arginase 1; Nitric oxide is biosynthesized by three isoforms of nitric oxide Mitochondrial arginase: Arginase2; Non-steroidal anti-inflammatory synthases (NOSs). Endothelial NOS (eNOS), neuronal NOS (nNOS) drugs: NSAIDS; Superoxide dismutase: SOD; Pentose Phosphate and, inducible NOS (iNOS) are all involved in immune responses Pathway: PPP; Hypoxia-inducible factor-1α protein: HIF-1α [3,7-9]. All the isoforms of NOS utilize L-arginine (L-Arg), oxygen, tetrahydrobiopterin and NADPH to generate NO and L-citrulline Cancer Immunoediting Come of Age (L-Cit) [6,7]. Among these isoforms, iNOS exhibits high NO output and has been reported in various cell types, which include but not limited The development in immunology in the last two decades has to M2 macrophages, MDSCs, dendritic cells, NK cells, tumor cells, given us a different level of appreciation of the immune system and endothelial cells, neuronal cells, and neutrophils which are involved the dual role it plays in cancer. The immune surveillance system in inflammation and cancer [10-16]. Cancer cells have a tendency suppresses tumor formation by destroying cancer cells or obstructing to disregard oxygen availability, electing for less efficient anaerobic their outgrowth. The development of some cancers might be seen as pathways of generating energy such as the pentose phosphate pathway a failure of immune surveillance and the ability of tumors to thwart and avoiding glycolysis [17]. The astuteness behind this is to manage the development of effective immune responses against their antigens. the reactive oxygen species and or oxidative damage to itself in the This resistance of tumors against the immune response is facilitated tumor microenvironment. This process is specific for cancer cells, as by immunoediting of immune signals induced by the tumors and their metabolites during the course of carcinogenesis [1,2]. One of the components of the immune system that initiates the mechanism of *Corresponding author: Ashok R. Amin, Rheumatrix Inc., Blacksburg, Virginia cancer immunoediting is inflammation [3-5]. Some of the tools (such 24060, USA, Tel: +908-416-5739; E-mail: [email protected] as nitric oxide and reactive nitrogen and or oxygen species) utilized by Received January 13, 2012; Accepted July 06, 2012; Published July 09, 2012 the immune system during infections and host defense also function to Citation: Amin AR (2012) The Metabolomics of Nitric Oxide and Reactive Nitrogen promote immune suppression in the tumor microenvironment. Species in Immune Editing Tumor Milieu: Influence of Nitric Oxide-Modulating Therapies. J Drug Metab Toxicol S8:002. doi:10.4172/2157-7609.S8-002 Nitric oxide in cancer, a compelling relationship in tumor Copyright: © 2012 Amin AR, et al. This is an open-access article distributed under progression the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and Nitric oxide is a gaseous signaling molecule in various biological source are credited. Mechanisms in Free radical J Drug Metab Toxicol Metabolomics ISSN: 2157-7609 JDMT, an open access journal Citation: Amin AR (2012) The Metabolomics of Nitric Oxide and Reactive Nitrogen Species in Immune Editing Tumor Milieu: Influence of Nitric Oxide- Modulating Therapies. J Drug Metab Toxicol S8:002. doi:10.4172/2157-7609.S8-002 Page 2 of 7 it may damage other metabolic active cells such as liver and immune cells. Thus “cancer cells make sacrifices for survival” [17]. Reduce RNS & Target specific Increase RNS & Low level of NO is essential for immune functions whereas ROS burden by RNS & ROS- ROS toxicity by chemotherapy generating cells Gene Therapy high levels of NO are associated with immune suppression [18]. or combinational or antigen therapy Several studies using NOS-/- mice and/or NOS inhibitors have demonstrated that NO mostly promotes tumor progression as reviewed by Fukumura et al. [19]. Cells of the tumor milieu (Figure 2) adapt to metabolic changes to limit the toxicity of free radicals, and acquire tumor immunity, resistance to apoptosis or other forms of cell death [7,17,20,21]. Thus NO is not only tightly regulated in the tumor environment, but it undergoes constant change and exhibits heterogenerous effects depending on the type of tumor, concentration of NO, NO’s ability to interact with other free radicals, proteins, metal ions and genetic background of its target [18]. The iNOS activity can change during tumor progression. For example, in colon cancers, iNOS Figure 2: Strategies for modulating nitric oxide, peroxynitrite, and superoxide activity is at the highest in adenomas. This iNOS activity decreases with in tumor milieu for therapy: The figure shows the various targets in the tumor advancing tumor-stages and was found to be minimum in metastatic milieu for therapeutic intervention. Reactive nitrogen and oxygen species and peroxynitrite within the tumor milieu are necessary and collective contributors tumors [19]. We and others have reported the pleiotropic role of NO in of tumor-mediated immune evasion.(3, 19). They may function independently normal and pathophysiological conditions [22] including cancers [23]. or collaboratively depending on the biochemical event. The cancer cells have In the present review, we will focus on the role of NO, NO producing evolved into a metabolic state to not only tolerate, but reduce reactive free radicals and oxidative damage. This metabolic state is regulated by various cells, the modification of metabolites by free radicals and their impact biochemical pathways {e.g. pentose phosphate pathways (PPP)}, enzymes on other cells involved in tumor immunity, immunotherapy, and {e.g. superoxide dismutase (SOD)} and other factors {such as hypoxia-induc- chemotherapy. ible factors (HIFs)} in the tumor milieu [17,56,57,71]. Several strategies have shown promising results in reversing immunosuppression by disrupting the Free radical releasing cells in tumor milieu roles of reactive nitrogen and oxygen species in tumors in animal studies and in man [56,57] These approaches include immunotherapy, gene therapy and The tumor milieu is a complex system of many cells [24]. They all chemotherapy [19,56,57,71]. Gene therapy targets
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